Awarded $654M in programs and investments and attracted $2.6B+ in private and federal capital
Awarded 47,000+ projects, supporting 164MW+ of solar and 251MW+ of clean heating and cooling
Supported 5,800+ college and vocational internships with 620+ employers, attracting 65% women and minority interns
Tested 55 wind turbine blades at the Wind Technology Testing Center, generating over $25M+ in revenue
Awarded $170M for technology innovation and company growth
Developed the 1st purpose-built port in the U.S. for staging and deployment of offshore wind projects
ABOUT MASSCEC
The Massachusetts Clean Energy Center (MassCEC) is a state economic development agency dedicated to accelerating the growth of the clean energy sector across the Commonwealth while helping to meet clean energy, climate, and economic development goals. MassCEC works to spur job creation, deliver statewide environmental benefits, and secure long-term economic growth for the people of Massachusetts.
MassCEC is governed by a Board of Directors, which is chaired by Massachusetts Energy and Environmental Affairs Secretary Rebecca Tepper.
AREAS OF FOCUS
MassCEC fosters collaboration amongst the climate industry, state government, research universities, community-based organizations, and the financial sector to advance the state’s clean energy economy. We partner with a diverse range of stakeholders, with a particular focus on clean transportation, high-performance buildings, net-zero grid, offshore wind, and clean energy workforce development.
read more…
MassCEC is committed to creating a diverse, equitable, and inclusive organization and clean energy industry where everyone is welcomed, supported, respected, and valued. Our workforce development programs incorporate principles of diversity, equity, inclusion, and environmental justice and support the training of our clean energy workforce to achieve our climate goals. We are passionate about promoting the equitable distribution of clean energy health and economic benefits across the Commonwealth.
MassCEC has a proven track record of identifying and supporting promising clean energy solutions and innovations. Our technology-to-market grants and investments support climate-critical technologies that reduce emissions and have the potential to address our most challenging climate issues. We specialize in funding early-stage technology crucial for decarbonization, addressing gaps in traditional funding. Our initiatives include research and development grants, seed funding, grants for prototypes and first demonstrations, and catalyzing later-stage investments.
Market development is a central component of MassCEC’s work, which includes accelerating the adoption of new commercially ready clean energy technologies, proving and scaling innovative business models, and developing and supporting critical clean energy infrastructure.
Massachusetts leads the growth of American offshore wind with two unique facilities. MassCEC owns and operates critical industry infrastructure—the Wind Technology Testing Center in Charlestown, the only facility of its kind in North America that conducts endurance testing for commercial-scale wind blades, and the New Bedford Marine Commerce Terminal, the only existing port in the United States purpose-built for the deployment of offshore wind.
Staging of offshore wind turbine components at MassCEC’s New Bedford Marine Commerce Terminal
NOTE FROM THE CEO
Emily Reichert
The Massachusetts Clean Energy Center is pleased to present our 2023 Clean Energy Industry Report. This report provides an overview of the clean energy industry in Massachusetts, demonstrates the tangible results of focused leadership in both the public and private sectors, and shares stories of MassCEC’s successful contributions to growing the industry.
This past year, the clean energy field experienced a dynamic period of powerful activity. Since taking office in January, the Healey-Driscoll Administration has sent a clear signal that Massachusetts is ready to lead on climate. Supporting expansion for equity-led workforce growth, pioneering creative climate financing solutions, bolstering budgetary support for energy and environmental activities, and striking a bold stance on offshore wind, Governor Healey and other leaders in state government are empowering Massachusetts to reach its climate targets.
It is clear there is a pressing need for a robust and well-trained clean energy workforce in Massachusetts. Presently, the state boasts 108,450 direct clean energy jobs, which further supports an additional 104,325 direct or induced jobs. In July, MassCEC unveiled an expansive Workforce Needs Assessment detailing the roadmap for clean energy workforce growth. To meet climate milestones, we must add 38,000 more workers to the industry by 2030. Building upon our robust workforce development programming, we can meet these challenges and bring valuable and rewarding careers to Massachusetts residents.
read more…
A highlight of our workforce programming was the August announcement of more than $18 million in grants to over 40 community-based organizations and industry partners to create meaningful pathways into clean energy careers. With a focus on equity and accessibility, these grants will offer training programs across the Commonwealth, providing the opportunity for sustainable, family-supporting careers in fields ranging from HVAC installation to wind turbine maintenance.
MassCEC is immensely proud of a new collaboration with partners in the Department of Elementary and Secondary Education. The newly established Clean Energy Innovation Career Pathway will introduce young students to these careers through experiential learning opportunities in the field, ensuring a workforce that meets future needs and inspires the next generation of clean energy experts.
Leading the offshore wind conversation this year was the ongoing construction of Vineyard Wind, the nation’s first commercial-scale offshore wind farm, built out of MassCEC’s New Bedford Marine Commerce Terminal, the country’s first purpose-built offshore wind port. This is a strong beginning to the Commonwealth’s commercial offshore wind future.
Governor Healey’s announcement of the fourth—and largest—offshore wind energy procurement propels Massachusetts into a period of substantial growth in the field. At 3,600 MW, this represents 25% of the Commonwealth’s annual electricity demand and is the largest procurement for offshore wind energy generation in New England.
Massachusetts is already preparing for this growth with substantial commitments to offshore wind infrastructure, including over $180 million in critical funding for upgrades to facilities in New Bedford, transmission cable manufacturing in Somerset, and the establishment of the state’s second offshore wind port in Salem, positioning the Commonwealth as leaders in the nation’s clean energy transition.
MassCEC is exploring strategic avenues to support innovative clean energy and climate technologies. With the launch of MassCEC’s first-ever venture fund, the 2030 Fund, MassCEC will invest $50 million by 2030 in early-stage climatetech startups with promising and groundbreaking solutions. Alongside our tech-to-market grants, we are nurturing and accelerating local entrepreneurs, further solidifying Massachusetts’ reputation as a global hub for climatetech innovation.
MassCEC continues to be at the forefront of the clean energy conversation. A new program to reduce embodied carbon in building materials is primed to change how we build. MassCEC-supported demonstration projects are examining new ways to deliver heat, accessible options for residential clean energy upgrades, and pathways to decarbonizing existing homes. We are expanding our electric school bus and overall clean transportation programming, ensuring our children and communities breathe healthier air.
Our clean energy future is a bright one. Though the magnitude of change may appear daunting, MassCEC remains steadfast in its mission and belief that Massachusetts will meet its climate goals and deliver a sustainable, clean energy future. Together, alongside our fellow Massachusetts residents, we can have a profound impact on our environment, creating a brighter world for future generations.
MASSACHUSETTS CLEAN ENERGY INDUSTRY HIGHLIGHTS
2023
MASSACHUSETTS CLEAN ENERGY INDUSTRY HIGHLIGHTS1
212,775 total direct, indirect, and induced jobs and $33.1 billion in total Gross State Product (GSP) supported by the clean energy industry
108,450 direct clean energy workers in MA
74% of clean energy jobs and businesses are located outside of Route 128
Clean energy jobs represent 2.8% of jobs in MA
Clean Energy Companies represent more than $14 billion in GSP
71% of clean energy workers are employed in the Energy Efficiency, Demand Management, and Clean Heating and Cooling Sector
Industry GSP increased by $5.7 billion since 2012, a 63% increase that outpaced growth in MA overall GSP, which grew by 55% over the same time
MA has 4% of all clean energy jobs in the U.S., while being home to only 2% of the country’s population
58% of all clean energy firms are small businesses (10 or fewer workers)
The clean energy jobs created by 2030 will have a median hourly wage of $36.58 (based on today’s dollars)
1 Unless otherwise noted, the numbers represented in the 2023 Massachusetts Clean Energy Industry Highlights are as of December 2022.
0
clean energy businesses
Since 2010, the Massachusetts clean energy industry has experienced:
0
job growth
adding
0
new workers
While COVID-19 led to a loss of 12,800 jobs by December 2020, the industry has begun to rebound, with over 7,200 jobs gained as of December 2022.
Sub-sectors that experienced the greatest rate of job growth between 2022 and 2023 reports 2
Electric Vehicles
39%
(+1,227 jobs)
Advanced & Recycled Building Materials
3.5%
(+651 jobs)
Solar
3.2%
(+506 jobs)
2 The 2023 Report shows sub-sector jobs growth in absolute numbers versus prior reports, which have shown percentage job growth.
ECONOMIC CONTRIBUTION ANALYSIS
ECONOMIC CONTRIBUTION ANALYSIS
DECEMBER 2022
For the purpose of this report, only those workers who are directly supporting clean energy activities, such as conducting research, manufacturing products, performing installations, or repairing and maintaining clean energy systems, are included as clean energy workers. However, the impact of the industry is significantly greater than these “direct” jobs alone.3
The clean energy industry has a similar number of direct jobs as the College & University or Restaurant industries yet exceeds both industries’ economic contribution in indirect and induced jobs and state GSP.
3 The economic contribution analysis in this report was calculated using IMPLAN modeling software. The study area was set as the State of Massachusetts, and the event year was set to 2021 since 2022 IMPLAN data was not yet available.
Based on this analysis, the
MASSACHUSETTS CLEAN ENERGY INDUSTRY
is responsible for a total economic contribution of:
212,775
combined direct, indirect, and induced jobs
$33.1
BILLION
in MA GSP
$2.6
BILLION
in state and local taxes
$4.4
BILLION
in federal taxes
The
108,450
DIRECT CLEAN ENERGY JOBS
in Massachusetts supported an additional:
38,466
INDIRECT JOBS
(those outside of the clean energy sector that provide critical supply chain goods and services)
65,859
INDUCED JOBS
(those that result from increased spending in the economy)
MASSACHUSETTS IS A LEADER
MASSACHUSETTS IS A LEADER
#1
Highest clean energy median wage in the U.S. at $29.84, which is 23% above the MA statewide median wage by Environmental Entrepreneurs (2020)
#1
and #3
For utility-specific energy efficiency work by Eversource Massachusetts and National Grid Massachusetts respectively by the American Council for an Energy-Efficient Economy (2023)
#1
On the clean energy Community Power Scorecard for the 7th straight year by the Institute for Local Self-Reliance (2023)
#1
Top states for LEED-certified green building by the U.S. Green Building Council (2022)
In the Top Ranking
For energy efficiency in the U.S. for the 2nd year in a row by the American Council for an Energy- Efficient Economy (2022)
For clean energy jobs as a percentage of total employment by the U.S. Department of Energy (2023)
For clean energy storage jobs per capita by the U.S. Department of Energy
MASSACHUSETTS IS A LEADER
MASSCEC SPOTLIGHT
MassCEC’s Offshore Wind Leadership
MassCEC began supporting the development of the offshore wind industry over a decade ago, knowing its potential to help meet the Commonwealth’s climate, energy, and economic development goals in Massachusetts. MassCEC has helped to reduce risk, increase market confidence, and support the economic development and workforce opportunities of the offshore wind industry.
MassCEC’s work has helped to address numerous challenges to growing the offshore wind industry, including:
Developing the first purpose-built port in the U.S.
Constructing the only commercial-scale wind blade testing facility in North America
Growing the pipeline of offshore wind workers and cultivating the supply chain in Massachusetts
The Commonwealth has conducted 3 offshore wind procurements to date totaling 3,200 MW of capacity, with the 4th procurement underway for up to 5,600 MW. The Vineyard Wind project, the first offshore wind project in the pipeline, is slated to be fully operational in 2024.
Staging of offshore wind turbine components at MassCEC’s New Bedford Marine Commerce Terminal
Staging of offshore wind turbine components at MassCEC’s New Bedford Marine Commerce Terminal
MassCEC’s Offshore Wind Ports Challenge
Successful establishment of the offshore wind industry in Massachusetts will require the build-out of multiple highly specialized port facilities for deployment, manufacturing, and operations.
MassCEC leveraged significant private and other public investments in specific maritime port rehabilitation and redevelopment activities to advance the offshore wind sector and capture high-value supply chain and workforce opportunities for the Commonwealth.
Broader Impacts
Significantly increases the regional capacity for offshore wind manufacturing, deployment, and operations & maintenance while increasing local employment and economic impact.
Initial Results
$180M investment
$444M leveraged funds
7 Port Projects in 3 environmental justice communities
In 2017, Massachusetts enacted the Clean Energy Standard, which aims to fully decarbonize the state’s electricity generation by 2050. Additionally, in 2021 and 2022, Massachusetts enacted comprehensive climate legislation to target reaching net zero greenhouse gas emissions by 2050 and supporting underserved populations. The Commonwealth has made progress in decarbonizing the electric grid, buildings, and vehicles, but more needs to be done to ensure the state meets its ambitious and critical goals.
MassCEC is poised to help tackle the most difficult challenges to achieving this climate goal, including testing and demonstrating new technologies and business models, supporting budding clean energy startups, supporting complex supply chains, engaging and informing consumers, and training a diverse and equitable workforce.
CUMULATIVE BATTERY AND PLUG‑IN HYBRID ELECTRIC VEHICLES4
4 Based on EEA’s Clean Energy Climate Plan Implementation Tracker (https://www.mass.gov/info-details/massachusetts-clean-energy-and-climate-metrics). Data updated as of July 2023.
MASSACHUSETTS GROSS EMISSIONS, 2050 CLEAN ENERGY CLIMATE PLAN
CLEAN ENERGY JOBS AND BUSINESSES
TOTAL CLEAN ENERGY JOBS5
Between 2010 and 2022, the clean energy industry in Massachusetts added a net 48,176 jobs, which accounts for 10% of all net jobs created in the state during that same time. Though the COVID-19 pandemic continues to have a lasting impact on the Massachusetts’ clean energy industry and the broader labor market, between the 2022 and 2023 reports, clean energy businesses added 4,160 jobs, representing a 4% increase. This is comparable to the growth of the Massachusetts wholesale trade and education industries, which also grew by 4% over the same time. The overall Massachusetts economy experienced job growth of 3% over the same time period.
This report defines a clean energy worker as a person who spends some portion of their time working in renewable energy, energy efficiency, alternative transportation, or other carbon management technologies. In Massachusetts, 108,450 workers spend some portion of their time working in clean energy. Of those workers, 70% spend the “majority” or “all of their time” working in clean energy, compared to an average of 63% nationally.
5For the purpose of this report, only those workers who are directly supporting clean energy activities, such as conducting research, manufacturing products, performing installations, or repairing and maintaining clean energy systems, are included as clean energy workers. However, the impact of the industry is significantly greater than these “direct” jobs alone.
6Employer hiring estimates are based on current opinions regarding companies’ short-term growth. Respondents consider a variety of factors, including current policy, economic conditions, and labor availability. It is more of a measure of optimism or pessimism than a detailed projection.
0
growth since 2010
Clean energy employers are optimistic, estimating to hire roughly 5,900 additional employees in 2024. While actuals may vary from these estimates, it demonstrates the interest by clean energy companies to grow and expand their workforce to meet industry and consumer demand.6
TOTAL CLEAN ENERGY JOBS REPORT YEARS 2010-20237
72023 job numbers represented in this report are based on the 2023 USEER data collection effort and represent the net change in employment between December 2021 and December 2022.
CLEAN ENERGY JOBS BY VALUE CHAIN8
All value chain segments continued to grow, adding jobs between the 2022 and 2023 reports. Businesses with a primary focus on Sales & Distribution experienced the greatest growth, adding 1,276 workers (5% growth). Installation grew by 4% (1,005 workers), while the Professional Services sector grew by 7% (598 workers). Additionally, businesses with a primary focus on Engineering & Research saw a growth rate of 3%, adding 559 new workers.
8Definitions for all clean energy value chains, sectors, and sub-sectors can be found in the Glossary of this report.
PERCENT OF 2023 CLEAN ENERGY JOBS BY VALUE CHAIN9
92023 job numbers represented in this report are based on the 2023 USEER data collection effort and represent the net change in employment between December 2021 and December 2022.
CLEAN ENERGY JOBS BY SECTOR8
Alternative Transportation saw the greatest growth rate at 39%, adding 1,279 jobs. Significant growth in the Alternative Transportation sector is attributable to the growing number of electric vehicle jobs. The growing number of electric vehicle jobs is driving significant growth in the Alternative Transportation sector, which has seen significant growth in Massachusetts and nationally over the last several years.
The Renewable Energy sector grew by 3% and the Energy Efficiency, Demand Management, and Clean Heating and Cooling sector, which continues to have the largest number of absolute jobs, grew by 3%.
TOTAL 2023 CLEAN ENERGY JOBS BY SECTOR9
PERCENT OF 2023 CLEAN ENERGY JOBS BY SECTOR9
8Definitions for all clean energy value chains, sectors, and sub-sectors can be found in the Glossary of this report.
92023 job numbers represented in this report are based on the 2023 USEER data collection effort and represent the net change in employment between December 2021 and December 2022.
ENERGY EFFICIENCY, DEMAND MANAGEMENT, AND CLEAN HEATING AND COOLING JOBS10
The Energy Efficiency, Demand Management, and Clean Heating and Cooling sector continues to make up the largest portion of clean energy jobs in Massachusetts. Within this sector, Advanced and Recycled Building Materials saw the most considerable increase between the 2022 and 2023 reports, at 651 jobs. Clean, High Efficiency, and ENERGY STAR Heating and Cooling, which includes jobs related to the installation of air source heat pumps, saw the second largest increase of 392 jobs. While this is a growing sub-sector in Massachusetts, the state is far short of having enough workers to install the number of heat pumps needed to reach the state’s 2030 Clean Energy and Climate Plan goal.
102023 job numbers represented in this report are from the 2023 USEER data collection and represent the net change in employment between December 2021 and December 2022.
CLEAN ENERGY JOBS AND BUSINESSES
MASSCEC SPOTLIGHT
MassCEC supported Cambridge-Finch multi-family affordable housing built to Passive House standards.
MassCEC supported Cambridge-Finch multi-family affordable housing built to Passive House standards.
DECARBONIZING MULTI-FAMILY BUILDINGS
Passive House building standards provide a framework for the construction of exceptionally energy-efficient, resilient, healthy, and comfortable buildings. In 2019 there were few Passive House buildings in Massachusetts, as they were believed to be overly complicated and expensive to build compared to those constructed using standard building practices. As a result, MassCEC developed the Passive House Design Challenge to demonstrate that multi-family affordable housing could be built to Passive House standards at a low- to no-cost premium. This program educated the industry and informed additional state programs, resulting in a significant increase in the number of Passive House buildings in the state.
MassCEC’s Passive House Design Challenge
Program Results
540 units (8 multi-family affordable projects)
86 developer & architect collaborations
2.4% average cost premium for Passive House
$1.8M awarded
Broader Impacts
De-risked concept of PH, leading to dramatic increase in Passive House design and construction:
Informed Mass Save’s Passive House incentives, with 10,000+ units in the pipeline
Resulted in addition of Passive House incentives to tax credit program
Informed Stretch Code to require Passive House for multi-family buildings
Massachusetts’ Electric Vehicles workforce continues to grow, adding 1,227 jobs for a growth rate of 39%. The state experienced a higher rate of Electric Vehicle job growth relative to the U.S. as a whole, which increased by only 27% over the same time. The Commonwealth ranked 3rd for the highest growth rate and 6th for the total number of new Electric Vehicle jobs created in the United States.
112023 job numbers represented in this report are based on the 2023 USEER data collection effort and represent the net change in employment between December 2021 and December 2022.
An all-electric shuttle bus providing free transportation from the Forest Hills Orange Line station to the Franklin Park Zoo.
CLEAN ENERGY JOBS AND BUSINESSES
MASSCEC SPOTLIGHT
ACCELERATING CLEAN TRANSPORTATION
In Massachusetts, transportation currently produces more greenhouse gas emissions than any other sector. Residents of disadvantaged communities are more likely to be exposed to poor air quality from transportation-related emissions and often lack the resources to access cleaner transportation alternatives.
MassCEC developed the Accelerating Clean Transportation for All (ACT4All) Program to pilot equity‑focused transportation programs and increase access for disadvantaged communities across Massachusetts. One program was focused on increasing e-bike use in pilots across the state.
MassCEC’s ACT4ALL E-Bike Projects
Cape Light Compact
Outreach to low-income adults in 10 environmental justice communities
Distributing 405 point-of-sale e-bike incentives with co‑pay from participants
MASSBIKE
Distributing 203 e-bikes at no cost to low‑income Worcester participants
Over 1,200 applicants have applied for e-bikes
Focusing on biker education and community events & rides
Metro Mobility
Distributing 215 e-bikes in Greater Boston environmental justice communities & at affordable housing developments
Pioneer Valley Planning Commission
Distributing 135 e-bikes at no cost to participants
Outreach focused in 3 Gateway cities & within environmental justice populations
Wind energy employment grew by 9% between the 2022 and 2023 reports, adding 211 new jobs. This is higher than the nationwide growth in wind jobs of 5% and slightly higher than New York’s wind energy job growth of 8%. Offshore wind-related jobs accounted for 10% of the Wind jobs.
Massachusetts’ solar industry grew by 3% (506 jobs), which is just slightly lower than the nationwide growth in solar jobs of 4%.
122023 job numbers represented in this report are based on the 2023 USEER data collection effort and represent the net change in employment between December 2021 and December 2022.
CLEAN ENERGY BUSINESSES
The overall number of clean energy businesses13 in Massachusetts increased by 159 (or 2%) relative to the year before, with the largest addition of Renewable Energy businesses, at 63. The trend has remained the same, with the majority (54%) of businesses focused on Energy Efficiency, Demand Management, and Clean Heating and Cooling. Small businesses (1 to 10 employees) account for 58% of all clean energy businesses, which is similar to the 2022 report. Mid-size businesses (11 to 49 employees) represent 27% of clean energy businesses.
0
clean energy businesses in 2023
13For the purpose of this report, a business is an establishment location. A clean energy business or firm with multiple locations would be counted multiple times in this analysis based on the number of unique locations.
MassCEC supported Harbor Village multi-family housing, built to Passive House standards. Photo courtesy of Ken Carter, Sunbug Solar, a ReVision Energy Company.
GROSS STATE PRODUCT
CLEAN ENERGY GROSS STATE PRODUCT14
The direct clean energy jobs in the industry contributed $14.9 billion, or roughly 2%, to the Commonwealth’s Gross State Product (GSP) in 2022. The industry’s GSP increased by 63% from 2012-2022. This outpaces overall growth in Massachusetts GSP, which grew by 55% over the same time period. Clean energy GSP increased by 3.7% (about $528 million) between 2021 and 2022. This rate of growth is slightly less than Retail Trade, which grew by 4.6% during the same time.
142022 data is the most recent available. The clean energy GSP was derived from survey incidence rates and proportional revenue reporting, together with existing data from the Bureau of Economic Analysis, calculated by NAICS code. Utility data and state government spending were included as direct inputs.
CLEAN ENERGY GROSS STATE PRODUCT BY VALUE CHAIN14
The contribution to the Massachusetts Clean Energy GSP by the Sales & Distribution sector grew by 10%, and Manufacturing grew by 7% between 2021 and 2022.
The Manufacturing sector continues to account for the largest contribution to clean energy GSP, at 24%, or $3.6 billion.
142022 data is the most recent available. The clean energy GSP was derived from survey incidence rates and proportional revenue reporting, together with existing data from the Bureau of Economic Analysis, calculated by the NAICS code. Utility data and state government spending were included as direct inputs.
WORKFORCE NEEDS ASSESSMENT
MASSCEC SPOTLIGHT
MASSACHUSETTS CLEAN ENERGY WORKFORCE NEEDS ASSESSMENT
In July 2023, MassCEC released Powering the Future: A Massachusetts Clean Energy Workforce Needs Assessment. This report provides a comprehensive analysis of the clean energy workforce needed to meet the state’s ambitious 2030 decarbonization goals, coupled with strategies to expand and diversify the clean energy workforce.
CLEAN ENERGY EMPLOYMENT (2022 – 2030)15
15 Source: Powering the Future: A Massachusetts Clean Energy Workforce Needs Assessment, bit.ly/CleanEnergyWorkforce
Major findings of the report:
0
additional clean energy workers are needed to meet the state’s 2030 decarbonization goals (37% growth)
0
of employers report difficulty finding workers in this tight labor market
0
of clean energy jobs created by 2030 will be middle- to high-wage jobs, with a median hourly wage of $36.58 (based on today’s dollar)
0
of all new clean energy jobs will be in the Energy Efficiency, Demand Management, and Clean Heating and Cooling sector
0
of new clean energy jobs are projected to be located outside of Route 128
Top Five Report Highlights and Recommendations
#1
Expanding clean energy career awareness is a crucial first step to growing and diversifying the pipeline for tomorrow’s climate-critical workers.
#4
Workforce development strategies must be tailored to regional considerations, including local occupations most in demand, infrastructure needs, and obstacles to transition.
#2
Scaling clean energy workforce training capacity will require leveraging existing systems and programs, prioritizing quality and effectiveness, and funding new or enhanced programs to address gaps and barriers.
#5
While the report projects clean energy job growth across over 140 occupations, 65% of growth will be concentrated within 20 occupations. Some occupations will require considerable additional support to reduce the risk of a workforce bottleneck. At the same time, there will be opportunities for prospective workers of any interest to plug into the clean energy industry.
#3
A just transition that provides economic opportunity and advancement to historically marginalized populations is critical to meeting the demand for clean energy workers. This includes supporting opportunities for fossil fuel workers to transition into comparable clean energy roles.
CURRENT AND PROJECTED CLEAN ENERGY EMPLOYMENT BY OCCUPATIONAL ROLE16
16 These categories are based on U.S. Bureau of Labor Statistics (BLS) Occupational groups. Descriptions of each group and associated occupations can be found at https://www.bls.gov/soc/2018/major_groups.htm. Construction, Installation, Maintenance and Repair Occupations is the combination of “Construction Occupations” and “Installation, Maintenance and Repair Occupations.” These categories were combined due to the similarity in their skills and work tasks.
The report includes a gap analysis of ten high-growth occupations, a regional gap analysis, best practices for clean energy workforce development, and a companion Excel data workbook.
The report found that while most clean energy workers surveyed faced some barriers to entry, female and non-white respondents were more likely to face barriers across multiple categories.
There are many approaches that can reduce barriers to entry into the clean energy industry for prospective workers. Among them, expanding access to accurate, engaging, and comprehensive information about clean energy career pathways is essential to driving career awareness, especially for underrepresented populations in the industry. Future investments in training capacity should focus on expanding access to training opportunities and enhancing outreach and support services. Efforts to engage clean energy businesses to deploy inclusive hiring practices and a welcoming and supportive work environment can support increasing worker retention and diversity in the industry.
Additionally, some persistent barriers, such as lack of reliable transportation, will require a whole government approach to effectively address.
BARRIERS TO ENTRY INTO CLEAN ENERGY BY RACE AND ETHNICITY17
17Since respondents to this survey are workers who successfully entered the clean energy space, the results may contain a “survivorship bias.” The barriers and intensity of those barriers may differ for populations who are, or could be, interested in clean energy careers but have not enter the industry.
CLEAN ENERGY TALENT
CLEAN ENERGY TALENT IS NEEDED
As of December 2022, 89% of employers reported that it was “very difficult” or “somewhat difficult” to find qualified talent, an increase from 85% just prior to the pandemic. The percentage of employers reporting that it was very difficult to find qualified talent was 35% in December 2022.
According to surveyed employers, approximately 71% of clean energy workers who were hired between December 2021 and December 2022 filled positions that required previous work experience. About 59% of these job hires filled newly created positions. The education credential requirements for the filled positions ranged, but almost half (49%) required a bachelor’s degree or higher. Alternatively, according to a recent MassCEC report, between now and 2030, clean energy employers will require a range of new workers across 140+ occupations, many of which will require less than a 4-year degree for entry.18
18 Source: “Powering the Future: A Massachusetts Clean Energy Workforce Needs Assessment,” Massachusetts Clean Energy Center, July 2023, bit.ly/CleanEnergyWorkforce
REASONS FOR HIRING CHALLENGES
The most common reason cited by clean energy employers (45%) for reported hiring difficulty was competition with other industries for potential hires or a small applicant pool. Additionally, 33% of employers pointed to a lack of experience, training, or technical skills of applicants as a cause for their hiring challenges.
Employers reported that the occupations most difficult to hire were Engineers and Scientists, Management, Technicians and Mechanical Support, Electricians, and Construction workers.
CAUSES FOR CLEAN ENERGY EMPLOYER HIRING DIFFICULTY REPORT YEAR2023
CLEAN ENERGY TALENT
MASSCEC SPOTLIGHT
BUILDING THE CLEAN ENERGY WORKFORCE PIPELINE
To meet the Commonwealth’s 2030 decarbonization goals, the Massachusetts clean energy workforce will need to grow by an additional 38,000 more workers.19 To support the growth of a robust, diverse clean energy workforce needed to meet this demand, MassCEC’s Workforce Development programs:
19 MassCEC’s Massachusetts Clean Energy Workforce Needs Assessment: https://www.masscec.com/resources/massachusetts-clean-energy-workforce-needs-assessment
Increase awareness and effective skill preparation for critical clean energy occupations
Expand the opportunity for registered apprenticeships and other on-the-job training opportunities
Support the creation, expansion, and enhancement of climate-critical training programs
Create opportunities for workers and businesses to transition into the industry
Support women and minority businesses
MassCEC’s Clean Energy Internship Program
Massachusetts clean energy businesses, many of which are small, need help accessing robust talent pipelines to remain competitive with more established industries with stronger career awareness. To address this challenge, MassCEC developed the Clean Energy Internship program to expand paid career exploration and on-the-job training opportunities among students while also providing clean energy employers with an active marketplace to discover talent and subsidize internships.
“MassCEC’s Clean Energy Internship Program has a generational impact on clean energy careers and enables talented students to stay in Massachusetts.”
— Matthew Nordan, Managing Director at Azolla Ventures
Program Results
5,800+ Internships Supported
620+ Unique Employers
65% of Participants are Women and Minorities
$26.5M+ Awarded and $6.8M+ Leveraged
Broader Impacts
1,030+ Interns Hired Permanently
Resource for employers to access and hire diverse candidates
Access to diversity, equity, and inclusion training
Collaborating to Expand Clean Energy Career Awareness
Expanding clean energy career awareness is crucial to growing and diversifying the pipeline for tomorrow’s clean energy workforce. To help address this challenge, MassCEC partnered with the Massachusetts Executive Office of Education, the Executive Office of Energy and Environmental Affairs, and the Department of Elementary and Secondary Education to create a new Clean Energy Innovation Pathway to provide high school students with applied, hands-on learning opportunities in the clean energy sector. Participating students will have access to interactive curricular resources, opportunities for career pathway mapping, and experiential learning in the field.
Broader Impacts
For the launch year, six high schools across the Commonwealth will plan new Clean Energy Innovation Pathways to increase awareness of clean energy careers, support the next generation of climate leaders, and join the nearly 200 high schools across the Commonwealth using Innovation Career Pathways to introduce students to in-demand careers.
The representation of workers by demographic group as a percentage of the clean energy workforce remained roughly unchanged from the 2022 to 2023 reports. There was a 7% increase in female workers compared to a 3% increase in male workers in absolute numbers over the same time period. Additionally, there was an 8% increase in the number of workers over the age of 55. While there was a slight increase in the number of jobs in a majority of the other demographic groups, the number of American Indian or Alaska Native and Native Hawaiian or other Pacific Islanders decreased from the 2022 to 2023 reports.
The state is committed to supporting individuals in environmental justice neighborhoods and disadvantaged populations to get the education and training needed to access high-paying occupations in clean energy and enabling minority and women-owned business enterprises to access the resources needed to pivot and grow as employers in the clean energy industry.
20 Data for age, race, ethnicity, and gender: https://www.bls.gov/lau/table14full22.htm. Population percentages for American Indian or Alaska Native, Native Hawaiian or other Pacific Islanders, or Two or more races were used due to lack of BLS data: www.jobseq.com. Veterans’ employment: https://www.bls.gov/news.release/vet.t06a.htm & BLS QCEW 2022 Annual Employment for Massachusetts.
2023 Clean Energy Employment
Percent of 2023 Clean Energy Workforce
Percent of 2023 Overall MA Workforce
Male
74,402
68.6%
51.4%
Female
34,048
31.4%
48.6%
Hispanic or Latino/a/x
17,130
15.8%
12.3%
Not Hispanic or Latino/a/x
91,320
84.2%
87.7%
White
80,322
74.1%
79.4%
Black or African American
8,660
8.0%
8.6%
Asian
9,056
8.4%
7.3%
American Indian or Alaska Native
1,174
1.1%
0.2%
Native Hawaiian or other Pacific Islanders
817
0.8%
0.0%
Two or more races
8,422
7.8%
4.4%
Veterans
9,956
9.2%
3.4%
Workers over the age of 55
15,981
14.7%
26.0%
2023 Clean Energy Employment
Female
74,402
Male
34,048
Hispanic or Latino/a/x
17,130
Not Hispanic or Latino/a/x
91,320
White
80,322
Black or African American
8,660
Asian
9,056
American Indian or Alaska Native
1,174
Native Hawaiian or other Pacific Islander
817
Two or more races
8,422
Veterans
9,956
Workers over the age of 55
15,981
Percent of 2023 Clean Energy Workforce
Female
68.6%
Male
31.4%
Hispanic or Latino/a/x
15.8%
Not Hispanic or Latino/a/x
84.2%
White
74.1%
Black or African American
8.0%
Asian
8.4%
American Indian or Alaska Native
1.1%
Native Hawaiian or other Pacific Islander
0.8%
Two or more races
7.8%
Veterans
9.2%
Workers over the age of 55
14.7%
Percent of 2023 Overall MA Workforce
Female
51.4%
Male
48.6%
Hispanic or Latino/a/x
12.3%
Not Hispanic or Latino/a/x
87.7%
White
79.4%
Black or African American
8.6%
Asian
7.3%
American Indian or Alaska Native
0.2%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
4.4%
Veterans
3.4%
Workers over the age of 55
26.0%
CLEAN ENERGY WAGES
Of the projected clean energy jobs to be created between 2022 and 2030, 82% will have wages that are greater than the statewide median hourly wage of $27.22. The clean energy jobs created by 2030 will have a median hourly wage of $36.58, based on today’s dollars.21
WAGES FOR A SUBSET OF CLEAN ENERGY OCCUPATIONS IN MA, 20220
Average Entry-Level Hourly Wages
Median Hourly Wages
Average Experienced Hourly Wages
Average Hourly Wages
Massachusetts Average
$17.76
$28.14
$46.96
$37.22
Occupations:
Carpenters
$23.08
$31.01
$39.22
$33.84
Construction Managers
$41.46
$59.43
$74.49
$63.48
Electrical Engineers
$39.32
$62.51
$75.41
$63.38
Electricians
$24.19
$38.67
$48.14
$40.15
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
$24.56
$34.68
$40.11
$34.93
Insulation Workers
$19.98
$28.19
$35.27
$29.84
Mechanical Engineers
$35.59
$50.50
$62.53
$53.55
Average Entry-Level Hourly Wages
Massachusetts Average
$17.76
Occupations:
Carpenters
$23.08
Construction Managers
$41.46
Electrical Engineers
$39.32
Electricians
$24.19
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
$24.56
Insulation Workers
$19.98
Mechanical Engineers
$35.59
Median Hourly Wages
Massachusetts Average
$28.14
Occupations:
Carpenters
$31.01
Construction Managers
$59.43
Electrical Engineers
$62.51
Electricians
$38.67
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
$34.68
Insulation Workers
$28.19
Mechanical Engineers
$50.50
Average Experienced Hourly Wages
Massachusetts Average
$46.96
Occupations:
Carpenters
$39.22
Construction Managers
$74.49
Electrical Engineers
$75.41
Electricians
$48.14
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
$40.11
Insulation Workers
$35.27
Mechanical Engineers
$62.53
Average Hourly Wages
Massachusetts Average
$37.22
Occupations:
Carpenters
$33.84
Construction Managers
$63.48
Electrical Engineers
$63.38
Electricians
$40.15
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
$34.93
Insulation Workers
$29.84
Mechanical Engineers
$53.55
21 Source: “Powering the Future: A Massachusetts Clean Energy Workforce Needs Assessment,” Massachusetts Clean Energy Center, July 2023, bit.ly/CleanEnergyWorkforce
Demographic representation in many of the highest-paying clean energy occupations is not equal. The disproportionately high representation of people of color among some of the more physically demanding roles, such as insulation workers, contributes to the overall diversity of the clean energy workforce, but masks other instances of inequality. Women are underrepresented industry-wide, particularly in many high‑growth occupations, such as Electricians, in which just over 2% are women.
DEMOGRAPHIC REPRESENTATION FOR A SUBSET OF CLEAN ENERGY OCCUPATIONS IN MA, 202222
Carpenters
Construction Managers
Electrical Engineers
Electricians
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
Insulation Workers
Mechanical Engineers
Female
3.5%
8.1%
7.2%
2.2%
2.3%
6.2%
7.6%
Male
96.5%
91.9%
92.8%
97.8%
97.7%
93.8%
92.4%
Hispanic or Latino/a/x
26.6%
7.4%
2.4%
14.4%
13.5%
36.4%
5.2%
White
87.2%
91.4%
72.8%
89.2%
86.1%
79.1%
80.3%
Black or African American
4.6%
3.3%
2.0%
6.1%
8.3%
17.2%
1.3%
American Indian or Alaska Native
0.4%
0.2%
0.0%
0.2%
0.1%
0.2%
0.1%
Asian
2.1%
2.5%
24.3%
2.2%
1.7%
0.0%
16.7%
Native Hawaiian or other Pacific Islanders
0.0%
0.0%
0.0%
0.0%
0.0%
0.0%
0.0%
Two or more races
5.7%
2.6%
0.8%
2.2%
3.8%
3.5%
1.7%
Workers over the age of 55
23.6%
31.5%
27.5%
22.6%
21.8%
16.4%
28.5%
Carpenters
Female
3.5%
Male
96.5%
Hispanic or Latino/a/x
26.6%
White
87.2%
Black or African American
4.6%
American Indian or Alaska Native
0.4%
Asian
2.1%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
5.7%
Workers over the age of 55
23.6%
Construction Managers
Female
8.1%
Male
91.9%
Hispanic or Latino/a/x
7.4%
White
91.4%
Black or African American
3.3%
American Indian or Alaska Native
0.2%
Asian
2.5%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
2.6%
Workers over the age of 55
31.5%
Construction Managers
Female
8.1%
Male
91.9%
Hispanic or Latino/a/x
7.4%
White
91.4%
Black or African American
3.3%
American Indian or Alaska Native
0.2%
Asian
2.5%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
2.6%
Workers over the age of 55
31.5%
Electrical Engineers
Female
7.2%
Male
92.8%
Hispanic or Latino/a/x
2.4%
White
72.8%
Black or African American
2.2%
American Indian or Alaska Native
0.0%
Asian
24.3%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
0.8%
Workers over the age of 55
27.5%
Electricians
Female
2.2%
Male
97.8%
Hispanic or Latino/a/x
14.4%
White
89.2%
Black or African American
6.1%
American Indian or Alaska Native
0.2%
Asian
2.2%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
2.2%
Workers over the age of 55
22.6%
Heating, Air Conditioning, and Refrigeration Mechanics and Installers
Female
2.3%
Male
97.7%
Hispanic or Latino/a/x
13.5%
White
86.1%
Black or African American
8.3%
American Indian or Alaska Native
0.1%
Asian
1.7%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
3.8%
Workers over the age of 55
21.8%
Insulation Workers
Female
6.2%
Male
93.8%
Hispanic or Latino/a/x
36.4%
White
79.1%
Black or African American
17.2%
American Indian or Alaska Native
0.2%
Asian
0.0%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
3.5%
Workers over the age of 55
16.4%
Mechanical Engineers
Female
7.6%
Male
92.4%
Hispanic or Latino/a/x
5.2%
White
80.3%
Black or African American
1.3%
American Indian or Alaska Native
0.1%
Asian
16.7%
Native Hawaiian or other Pacific Islander
0.0%
Two or more races
1.7%
Workers over the age of 55
28.5%
22 Source: JobsEQ® www.jobseq.com. Accessed July 2023. Occupation Wages, Average Hourly in Massachusetts, 2022Q4 & Occupation Diversity, in Massachusetts, 2022Q4, based on place of residence estimates
DIVERSITY CONSIDERATIONS
Of the organizations surveyed, 25% have strategies, policies, or programs to increase the number of female hires, 24% have the equivalent to increase the number of ethnic or racial minority hires, while only 9% reported having the equivalent to increase the number of LGBTQ+ hires.
Employers utilize a variety of methods to increase diversity among workers, with targeting schools or conducting outreach being the most common strategy.
EMPLOYERS WITH STRATEGIES TO INCREASE DIVERSITY AMONG WORKERS REPORT YEAR 2023
EMPLOYER SUPPORT PROGRAMS
Only 30% of clean energy businesses reported having formal or informal mentorship/sponsorship programs for employees. Of those businesses, the most common program to offer is a general mentorship program (37%), and the least common is an apprenticeship program (5%).
Increasing registered apprenticeships is important, as it is a proven model for improving access to careers and is supported financially at the state and federal level.23
EMPLOYER MENTORSHIP OR SPONSORSHIP
PROGRAMS REPORT YEAR 2023
PERCENTAGE OF EMPLOYERS WITH A MENTORSHIP OR SPONSORSHIP PROGRAM REPORT YEAR 2023
Photo courtesy of Enel North America
CLEAN ENERGY TALENT
MASSCEC SPOTLIGHT
INCREASING EQUITY IN THE CLEAN ENERGY INDUSTRY
To achieve and sustain the Commonwealth’s climate goals, Massachusetts needs a robust, well-trained, and inclusive clean energy workforce. MassCEC’s Equity Workforce Planning, Capacity, Implementation, and Minority and Women Business Enterprise grants address the need for increased clean energy industry knowledge and provide quality technical assistance to environmental justice-serving organizations. The funding and corresponding support assist organizations in providing climate-critical training opportunities and wrap-around support services to increase placement and retention of residents in environmental justice neighborhoods, underrepresented populations, minority and women business enterprises, and former fossil fuel workers into clean energy career pipelines.
“MassCEC provided quality assistance during our planning phase, including immediate responses to our questions, helpful feedback on our training strategies, and assistance describing our plan to local and state leadership. This type of technical assistance is particularly important as we work to plan training, and place our tight labor market supply into the clean energy sector.”
— Mary Sarris, Executive Director, MassHire North Shore Workforce Board, MassCEC Equity Workforce Planning Grantee
MassCEC Equity Workforce Planning, Capacity, and Implementation Grant Program
Initial Program Highlights
Awarded grants to train 700+ participants
37 Planning & Capacity Grants awarded
Awarded grants to provide support services to 350+ minority and women-owned business enterprises
$18.3M Awarded
Broader Impacts
Connecting community organizations, training providers, and employers
Help minority & women business enterprises access new work
Leverage additional state and federal funding for community benefit
In addition to workforce development programs, MassCEC takes a broader approach to increasing equitable access to the benefits of clean energy. Low-income Massachusetts households spend a disproportionately high percentage of their income on energy, and renters, low-income, and non-English-speaking households are less likely to use energy efficiency incentives. Similarly, solar adoption lags for renters and minority communities. And yet, all residents need and deserve to be part of our collective clean energy future. MassCEC’s EmPower Massachusetts Program offers multiple stages of investment in communities and community-based organizations to explore, develop, and implement program models or projects that provide access to the benefits of clean energy for previously underserved populations.
CLEAN ENERGY INVESTMENTS AND INNOVATION
CLEAN ENERGY INVESTMENTS
A robust innovation network is a key driver of the Massachusetts clean energy industry. Innovation support can take numerous forms, including ecosystem support, grants, and direct company investments.
Investments in clean energy companies can fall into three key segments24:
Stage I: Research & Prototyping – Companies at the ideation, theoretical research, and prototype development stage. Stage II: Demonstration & Acceleration – Companies at the product testing, system evaluation, and market research stage. Stage III: Commercialization & Growth – Companies that are expanding manufacturing capacity and identifying early-stage customers.
The picture is mixed for Massachusetts climate venture capital, with an overall flattening after the rapid growth of 2021 and a fall in the number of Stage I deals. While the local ecosystem has proved more resilient than the venture capital market more broadly, there may be early signs of an investor retreat, especially from risky early-stage ventures, with firms committing more capital to Stage II deals in more established companies. Anecdotal evidence suggests that this trend has continued into 2023.
24The numbers of deals and amounts invested in each of these segments may vary from previous years’ reports, owing to changes in methodology and delays before investments become public.
25A $1.8 billion Series B investment was excluded from 2021 data as a significant outlier that would otherwise have obscured the picture..
TOTAL MASSACHUSETTS CLEAN ENERGY DEALS24,25
TOTAL MASSACHUSETTS CLEAN ENERGY INVESTMENTS (millions)25, 26
25A $1.8 billion Series B investment was excluded from 2021 data as a significant outlier that would otherwise have obscured the picture.
26PitchBook Data, Inc. These data have not been reviewed by PitchBook analysts.
CLEAN ENERGY INVESTMENTS AND INNOVATION
MASSCEC SPOTLIGHT
MASSCEC INVESTMENTS PORTFOLIO
Seed and early-stage clean energy companies face funding gaps that threaten their path to reaching the market. MassCEC provides debt and equity investments in the most promising early-stage companies, signaling to the public and private market that Massachusetts is committed to the commercialization of clean energy technologies and business models. These investments support clean energy companies as they de-risk technology, reach early commercial milestones, and attract growth funding.
Boston Materials developed a patented Z-axis Fiber technology that enables lightweight, high-performance materials with significant energy-efficiency benefits for the automotive, aerospace, and electronics markets. Alongside innovation and workforce development grants, MassCEC made an early investment in Boston Materials through the BRIDGES program in 2020. The company has gone on to raise larger sums from venture capital and strategic investors, including a $12M Series A round in November 2022. It is expanding its manufacturing facility and headquarters in Billerica as it aims for commercial production.
Via Separations provides high-performance graphene oxide membranes that enable more efficient industrial processes. Via Separations has been a grantee of MassCEC’s innovation and workforce programs and received an initial MassCEC investment in April 2019 as part of a Series A fundraising round. MassCEC’s support enabled the company to leverage additional funding, and two years later, Via raised a $32M Series B round. In 2022, Via was one of the clean energy companies selected by the US Department of Energy for their SCALEUP Grant and was awarded just under $10M. Via plans to deploy a new membrane module for industrial manufacturing, targeting a 90% reduction in energy costs.
MassCEC’s clean energy company investments have yielded
Innovation in the clean energy industry is crucial for Massachusetts to meet its climate goals faster and more cost-effectively. MassCEC’s role in supporting innovation is countercyclical and more stable than the venture capital sector, helping to accelerate the rate of innovation. Additionally, MassCEC’s efforts stimulate more private sector spending in innovation while also bridging critical funding gaps.
MassCEC provides funding and mentorship to Climatetech startups, researchers, incubators, and accelerators.
Goals:
Stimulate the commercialization of early-stage, promising, clean energy technologies.
Support technological innovation
Foster a just clean energy transition by supporting diverse founders
Provide critical and timely funding and mentorship during company formation and technology development
Attract early-stage clean energy startups to Massachusetts
Enable accelerators and incubators to provide the clean energy industry with valuable and complementary resources to MassCEC
Since 2010 MassCEC’s Technology Development and Innovation Program has facilitated:
89%
Startup awardees still in business
6,148
New hires
$42.5M
Awarded
$194M
Leveraged
405
Awards
REGIONAL ANALYSIS
REGIONAL ANALYSIS
The Berkshire, Cape Cod, and Central Mass Workforce Skills Cabinet (WSC) regions all saw 5% growth in clean energy jobs between the 2022 and 2023 report. Additionally, the Berkshire WSC region experienced a 7% growth in clean energy businesses over the same time period.27
Clean Energy Jobs And Businesses In Massachusetts Workforce Skills Cabinet Regions
Berkshire
Cape Cod
Central Mass
Greater Boston
Northeast
Pioneer Valley
Southeast
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
2022 Report
2,982
214
5,309
444
17,073
1,254
37,071
2,199
10,608
709
9,583
727
21,664
1,609
2023 Report
3,129
229
5,579
456
17,987
1,274
38,448
2,242
11,001
718
9,870
748
22,436
1,648
2022-2023 Report Change
4.9%
7.0%
5.1%
2.7%
5.4%
1.6%
3.7%
2.0%
3.7%
1.3%
3.0%
2.9%
3.6%
2.4%
Percent of Total Clean Energy Jobs/ Businesses in 2023
2.9%
3.1%
5.1%
6.2%
16.6%
17.4%
35.5%
30.6%
10.1%
9.8%
9.1%
10.2%
20.7%
22.5%
Percent of Total Jobs/Businesses in Region
5.0%
4.0%
4.5%
3.5%
4.8%
4.4%
2.2%
2.1%
2.4%
1.9%
3.2%
2.6%
3.8%
3.4%
Berkshire
Cape Cod
Central Mass
Greater Boston
Northeast
Pioneer Valley
Southeast
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
2022 Report
2,982
214
5,309
444
17,073
1,254
37,071
2,199
10,608
709
9,583
727
21,664
1,609
Berkshire
Cape Cod
Central Mass
Greater Boston
Northeast
Pioneer Valley
Southeast
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
2023 Report
3,129
229
5,579
456
17,987
1,274
38,448
2,242
11,001
718
9,870
748
22,436
1,648
Berkshire
Cape Cod
Central Mass
Greater Boston
Northeast
Pioneer Valley
Southeast
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
2022-2023 Report Change
4.9%
7.0%
5.1%
2.7%
5.4%
1.6%
3.7%
2.0%
3.7%
1.3%
3.0%
2.9%
3.6%
2.4%
Berkshire
Cape Cod
Central Mass
Greater Boston
Northeast
Pioneer Valley
Southeast
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Percent of Total Clean Energy Jobs/ Businesses in 2023
2.9%
3.1%
5.1%
6.2%
16.6%
17.4%
35.5%
30.6%
10.1%
9.8%
9.1%
10.2%
20.7%
22.5%
Berkshire
Cape Cod
Central Mass
Greater Boston
Northeast
Pioneer Valley
Southeast
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Employment
Businesses
Percent of Total Jobs/Businesses in Region
5.0%
4.0%
4.5%
3.5%
4.8%
4.4%
2.2%
2.1%
2.4%
1.9%
3.2%
2.6%
3.8%
3.4%
27Source: JobsEQ® www.jobseq.com. Accessed July 2023. Data Explorer, Industry Data, 4-quarter moving average employment in Massachusetts, 2021 & 2022. Establishment data is only available at the county level, and the WSC regions are determined by zip code. Some counties fall within multiple WSC regions, so establishment data from the county level is allocated proportionally between the multiple WSC regions based on employment data per region at the zip code level.
STATE-BY-STATE COMPARISON
Massachusetts continues to be a leader in clean energy jobs relative to other states in several categories. The Commonwealth ranks 2nd for total number of clean energy jobs as a percentage of total employment in the state.
STATE CLEAN ENERGY JOB RANKINGS, REPORT YEAR 202328
TOTAL STATE CLEAN ENERGY JOBS
1
California
501,314
2
Texas
232,731
3
Florida
157,025
4
New York
157,010
5
Illinois
113,811
6
Massachusetts
108,450
7
Michigan
100,966
8
North Carolina
98,914
9
Ohio
98,375
10
Virginia
90,083
TOTAL CLEAN ENERGY JOBS PER CAPITA
1
Vermont
2.2%
2
District of Columbia
2.1%
3
Massachusetts
1.6%
4
Wyoming
1.4%
5
Utah
1.3%
6
Rhode Island
1.3%
7
Maryland
1.3%
8
California
1.3%
9
South Dakota
1.3%
10
Oregon
1.3%
TOTAL CLEAN ENERGY JOBS AS A PERCENTAGE OF TOTAL STATE EMPLOYMENT
1
Vermont
4.7%
2
Massachusetts
3.0%
3
Maryland
3.0%
4
Wyoming
2.9%
5
Rhode Island
2.9%
6
California
2.8%
7
Oregon
2.7%
8
Delaware
2.6%
9
Utah
2.5%
10
South Dakota
2.5%
28 These employment values were calculated based on the Massachusetts clean energy definition, which may vary from the definitions of other states or organizations. For example, Massachusetts does not include traditional hydropower, traditional HVAC, or corn ethanol in its clean energy definition, while other states and organizations may. This was done for consistency so that employment values could be compared across states.
STATE CLEAN ENERGY JOB RANKINGS, REPORT YEAR 2023
METHODOLOGY
METHODOLOGY
The Massachusetts 2023 Clean Energy Industry Report uses publicly available data from the 2023 U.S. Energy and Employment Report (USEER)29 on Massachusetts energy employment produced by BW Research Partnership on behalf of the Department of Energy (DOE). These public data are refined and customized for Massachusetts based on additional analyses conducted by BW Research Partnership on behalf of the Massachusetts Clean Energy Center.
The 2023 USEER survey in Massachusetts was administered by telephone, with approximately 29,400 outbound calls in Massachusetts, as well as by web, with more than 12,600 emails sent to potential participants across the state.
In total, 1,147 business establishments in Massachusetts participated in the survey effort, with 402 providing full responses to the survey. These responses were used to develop incidence rates among industries as well as to apportion employment across various industry categories in ways currently not provided by state and federal labor market information agencies. The margin of error is +/- 4.87 percent at a 95 percent confidence level. See the full Expanded Methodology for more details on the 2023 Massachusetts Clean Energy Industry Report.
read more…
Employer Survey Methodology
Data for this year’s report is derived from the United States Energy and Employment Report (USEER). The 2023 USEER methodology relies on the most recently available data from the Bureau of Labor Statistics (BLS) Quarterly Census of Employment and Wages (QCEW, third quarter 2022), the BLS Unemployment Situation Table B-1 monthly reports, together with a detailed supplemental survey of businesses across Massachusetts designed and conducted by BW Research Partnership on behalf of the Department of Energy (DOE). The methodology employed for the survey has been used for local, state, and federal energy-related data collection and analysis for more than a decade.
The survey uses a stratified sampling plan that is representative by the North American Industry Classification System (NAICS) industry codes, business size, and geography to determine the proportion of businesses that work with specific clean energy-related technologies, as well as the proportion of workers in such businesses that work with the same. Survey results are analyzed and applied to the existing public QCEW data series, constraining the potential universe of energy businesses and employment.
The survey was administered by telephone with approximately 29,400 outbound calls in Massachusetts as well as by web, with more than 12,600 emails sent to potential participants across the state. The phone survey was conducted by ReconMR and BW Research. The web instrument was programmed internally, and each respondent was required to use a unique ID in order to prevent duplication.
The sample was split into two categories, referred to as the known and unknown universes. The known universe includes businesses that have previously identified as energy-related, either in prior research or some other manner, such as membership in an industry association or participation in government programs. These businesses were surveyed census-style, and their associated business and employment totals were removed from the unknown universe for both sampling and resulting employment calculations and estimates. As performed on an annual basis, BW Research cleaned, deduplicated, added to, and refined its database to reflect churn (companies out of business, moved, no longer in clean energy, etc.), unverified (no answer, answering machine, fast-busy, disconnect, etc.), verified, and other available demographic tags (industry, technology, sub-technology, size, etc.).
In addition to cleaning the original known clean energy database, BW Research also supplemented with industry association contact lists by technology, new companies from the unknown database that took the previous year’s survey, and contact lists from subcontractors. BW Research also appended contact information, including six-digit NAICS codes, contact, employment, and location information.
The unknown universe includes hundreds of thousands of businesses in potentially clean energy related NAICS codes, across agriculture, mining, utilities, construction, manufacturing, wholesale trade, professional services, and repair and maintenance. Each of these segments and their total reported businesses (within the Bureau of Labor Statistics QCEW) were carefully analyzed by size (employment – provided by the Census Bureau’s County Business Patterns) and state to develop representative clusters for sampling.
In total, 1,147 businesses in Massachusetts participated in the survey effort, with 402 providing full responses to the survey. Since 2015, 3,991 employers have provided full responses to the survey. These responses were used to develop incidence rates among industries, as well as to apportion employment across various industry categories in ways currently not provided by state and federal labor market information agencies. The margin of error is +/- 4.87% for Massachusetts at a 95% confidence interval.
Commodity flow data was collected and analyzed for the USEER 2023 report, however, since the industries covered do not transport products that are related to clean energy, they were left out of the analyses for the Massachusetts Clean Energy report.30
All data in the USEER rely on the BLS QCEW data for the end of the third quarter of 2022, and the BLS Unemployment Situation Table B-1 monthly reports through December 2022. Employment extrapolations are based off BLS QCEW and survey data, resulting in totals that carry precise decimal values. As a result, some employment totals in the report may sum differently due to rounding. The USEER survey was administered between January 31, 2023 and March 30, 2023 and averaged 17 minutes in length. Given that the secondary data, which is the basis of USEER & the Massachusetts Clean Energy Industry Report, is only available through Q4 2022, the data is presented as of the end of 2022.
Gross State Product Data
Gross State Product (GSP) is presented for both the overall clean energy economy and each of the value chain categories; the data supports the economic index portion of each of the BW indices. The input-output data for GSP is derived from data from the U.S. Bureau of Economic Analysis (BEA), by NAICS code. GSP is an important measure of economic activity, measuring the value and flow of goods and services produced in the economy.
Each NAICS industry’s Gross State Product is multiplied by the ratio of clean energy businesses to all businesses within the NAICS segment. This produces the Gross State Product contribution of businesses engaged in clean energy activities. To generate the clean energy proportion, this figure is further reduced by multiplying it by the mean reported revenues attributed to clean energy goods and services from the survey.
Economic Contribution Analysis
BW Research used IMPLAN, an input-output model that traces spending and infrastructure developments through the economy to determine the economic impact of the clean energy jobs in 2022 to the State of Massachusetts. The cumulative effects of the jobs are quantified, and the results are categorized into direct, indirect, and induced effects. Direct effects show the change in the economy associated with overall clean energy jobs, or how the industry experiences the change. Indirect effects include all the backward linkages, or the supply chain responses as a result of clean energy jobs. Induced effects refer to household spending and are the result of workers who are responsible for the direct and indirect effects spending their wages.
Model Input To develop the economic model in IMPLAN, BW Research identified the clean energy jobs in the State of Massachusetts disaggregated by NAICS code, as calculated for the 2023 Massachusetts Clean Energy Industry Report (MACEIR) (i.e. in-scope jobs). All jobs in 2022 were converted from NAICS code to IMPLAN code and added as input to IMPLAN. The study area was set as the State of Massachusetts and the event year was set to 2021 since 2022 IMPLAN data was not yet available.
Model Output Results from the economic contribution analysis include employment31 (full- and part-time jobs), labor income, value added, and output. Output is the gross revenue of the industry. Value added is the total output minus the cost of inputs from outside the firm; it is a measure of the contribution to the Gross State Product made by the companies or industries. Labor income include all forms of employment income, such as employee compensation (wages and benefits) and proprietor income (i.e. payments received by self-employed individuals and unincorporated business owners).
Addressing Supply and Value Chain Double-Counting One important step in the analysis was to ensure the IMPLAN model, by quantifying direct and indirect jobs, would not double-count the in-scope jobs (i.e. jobs from the MACEIR data). Since MACEIR data includes value chain jobs and IMPLAN also calculates the supply chain employment in the indirect impacts, there could be some double-counting. When using jobs as an input (as we do in our analysis), as compared to sales or expenditures, there is the additional challenge of determining whether the jobs should be considered direct or indirect jobs (i.e., part of the supply chain economic activity). For example, construction jobs entered in IMPLAN have impacts through the entire value chain (e.g., purchasing ENERGY STAR boilers). If the supply chain jobs are entered in IMPLAN as direct jobs and the model also accounts for them as an indirect impact of the new construction jobs, then there is double-counting and the impacts will be inflated.
The challenge faced by using jobs as the economic model input was to determine the number of in-scope energy jobs that should be counted in IMPLAN as direct or indirect jobs, without eliminating activity that was not initially included in the MACEIR data. To address the double-counting challenge, the research team adopted the following methodology:
[1] Employment refers to the annual average of monthly jobs (same definition used by QCEW, BLS, and BEA, nationally) and it includes both full- and part-time jobs.
Step 1: Run detailed, individual models for each in-scope industry32 by IMPLAN code
The research team ran detailed models for each in-scope industry by IMPLAN code and analyzed the indirect jobs created by each in-scope industry. By creating individual models for each IMPLAN code, the team gained a better understanding of the jobs created in different indirect industries by each in-scope industry.
Step 2: Compare the number of direct + indirect jobs by industry estimated in IMPLAN with the initial in-scope jobs
This step included looking at the number of direct + indirect jobs by industry and comparing with the initial in-scope jobs by industry. By doing this, the team analyzed the supply chain jobs that are created by each in-scope industry, which helped adjust the in-scope jobs based on the number of direct and indirect jobs created in IMPLAN.
Step 3: Adjust (decrease) the initial in-scope jobs based on the direct + indirect jobs calculated in the IMPLAN model
This step included reducing the in-scope jobs based on the direct + indirect jobs that IMPLAN estimated. For example, if based on the construction in-scope jobs, IMPLAN calculated that x number of indirect jobs were created in wholesale trade, we excluded that x number from the initial in-scope jobs in wholesale trade since they were already accounted for as indirect jobs of construction.
This important step addresses the fundamental challenge of this study which is determining the proportion of in-scope jobs that should be considered direct or indirect (supply-chain) jobs. By following this methodology, we avoided double-counting the in-scope jobs that would occur if all of them would be considered direct jobs.
Step 4: Re-run the IMPLAN model with the “adjusted” in-scope jobs by industry
After running several individual and collective models, the last step was to re-run the IMPLAN model one more time with the adjusted number of in-scope jobs by industry.
Final Output
Direct = “adjusted” in-scope industry jobs by sector to account for the indirect jobs IMPLAN calculates.
Indirect = indirect jobs produced by the model which include in- and out-of-scope industries
30 Transportation of motor vehicles is included in commodity flows, however, vehicle by fuel type is not collected.
31 Employment refers to the annual average of monthly jobs (same definition used by QCEW, BLS, and BEA, nationally) and it includes both full- and part-time jobs.
32 “Industry” here refers to the underlying industries (defined by NAICS and, in this exercise, converted to IMPLAN code) used in the sampling and extrapolation of the “clean energy industry” employment data.